Lectures related to Inductance and Energy Storage

Explores energy storage in coils, magnetic fields, and capacitors, emphasizing the oscillation and decay of energy in circuits.

Explores energy storage in magnetic fields, LC circuits, ferromagnetic cores, and oscillating voltage signals.

Explores magnetic forces, energy, inductance, and the magnetic dipole moment in circuits.

Explores inductors' applications, LC circuit operation in radio clocks, energy oscillations, and harmonic oscillators.

Covers magnetic fields, Ampère's law, and magnetic dipoles with examples and illustrations.

Delves into magnetodynamics, RL circuits, and energy storage in solenoids.

Explores Maxwell's equations in polarized matter and fields transformation under different frames.

Explores the basics of magnetism, magnetic fields, and magnetic properties in materials.

Explores electric fields, energy storage, charge displacement, DC currents, and historical aspects of electricity.

Explores electricity, magnetism, inductance coils, capacitors, magnetic fields, and electromagnetic forces.

Explores magnetic fields, currents, Biot-Savart law, Ampère's law, and magnetic dipoles.

Covers mutual inductance, energy storage, power in inductors, and LR/LC circuits.

Explains mutual inductance, self-inductance, magnetic energy, and 'cross-talk' in circuits.

Explains magnetic circuits, focusing on inductance and Maxwell's equations in electromechanical systems.

Explores RL circuits, current growth, energy storage, and field enhancement in inductance and solenoids.

Explores electromagnetic waves, Maxwell's equations, circuits, and wave propagation through different media.

Explores Maxwell's equations, induction in moving conductors, electromotive force, and electrical fields.

Explores the calculation of energy density in a magnetic field and its importance in electromagnetism.

Explores energy storage technologies, their advantages, applications, and economic aspects in renewable energy systems.

Explores magnetic dipole moment, torque, energy, field analysis, and Maxwell's equations for magnetostatics.